Abstract: A numerical control device includes a control computation unit controlling a spindle as a rotation axis of a workpiece, a first shaft driving a tool performing vibration cutting machining on the workpiece, and a second shaft driving a tool performing vibration cutting machining on the workpiece. The computation unit includes: a storage unit storing a machining program; a determination unit determining whether the number of vibrations of the first shaft and the second shaft follows a rotation speed of the spindle specified by the machining program; and a number-of-vibrations calculation unit that, in response to the determination that the number of vibrations of at least one of the first shaft and the second shaft does not follow the rotation speed of the spindle, calculates the number of vibrations following the rotation speed of the spindle for the drive shaft assessed as not following it.

Abstract: A numerical control device for controlling a main shaft, which is a rotating shaft for a workpiece, a drive shaft that drives a tool for vibration cutting of the workpiece in an X-axis direction, and a drive shaft that drives the tool or the workpiece in a Z-axis direction, includes: a storage unit that stores a machining program for vibration cutting of the workpiece; and a control computation unit that calculates a specific point that the tool passes during vibration cutting on the basis of a tolerance value, which is an allowable error in machining of a corner of the workpiece, and generates a vibration waveform of the tool indicating a movement path of the tool passing the specific point, in which the control computation unit controls movement and vibration of the tool in accordance with the machining program and the vibration waveform.

Abstract: A numerical control device for controlling a main shaft, which is a rotating shaft for a workpiece, a drive shaft that drives a tool for vibration cutting of the workpiece in an X-axis direction, and a drive shaft that drives the tool or the workpiece in a Z-axis direction, includes: a storage unit that stores a machining program for vibration cutting of the workpiece; and a control computation unit that calculates a specific point that the tool passes during vibration cutting on the basis of a tolerance value, which is an allowable error in machining of a corner of the workpiece, and generates a vibration waveform of the tool indicating a movement path of the tool passing the specific point, in which the control computation unit controls movement and vibration of the tool in accordance with the machining program and the vibration waveform.

Abstract: As a thermoplastic resin used as a matrix resin for a fiber-reinforced composite material, a thermoplastic resin having a high glass transition temperature in spite of having a low resin viscosity during molding is provided. Provided are a two-liquid curable composition for forming a thermoplastic matrix resin, the two-liquid curable composition containing an active hydrogen component containing an alkylthio group-containing aromatic diamine (A) and a diisocyanate component containing at least one kind of diisocyanate (B) selected from the group consisting of aliphatic diisocyanates, alicyclic diisocyanates, and modified forms of aliphatic diisocyanates and alicyclic diisocyanates, a matrix resin for a fiber-reinforced composite material, the matrix resin being a thermoplastic resin containing a reaction product of the active hydrogen component and the diisocyanate component, and a fiber-reinforced composite material containing the matrix resin and reinforcing fiber.

Abstract: Provided are a two-component curable composition, for manufacture of a thermoplastic polyurethane resin, that exhibits low mixing viscosity and high glass transition temperature after curing, a thermoplastic polyurethane resin that is a cured product thereof, and a fiber-reinforced resin including the thermoplastic polyurethane resin. The two-component curable composition for manufacture of a thermoplastic polyurethane resin is a two-component curable composition including a polyol component including a diol (A) and a polyisocyanate component including a diisocyanate (B). The diol (A) includes a diol (A-1) having an aromatic ring and having a molecular weight of 200 to 700 and a diol (A-2) having no aromatic ring and having a molecular weight of 500 or less. The ratio ((A-1)/((A-1)+(A-2))) of the mass of the diol (A-1) to the total mass of the diol (A-1) and the diol (A-2) is (10/100) to (75/100).

Abstract: A navigation device that includes: a memory; and a processor that is configured to: acquire route information relating to a planned route to be traveled by a second vehicle of a user having a friendly relationship with a user of a first vehicle, search for a guided route based on a current position of the first vehicle and the route information, such that at least one of the first vehicle or the second vehicle heads toward a common location, and output route guidance information relating to the guided route to at least one of the first vehicle or the second vehicle.

Abstract: A communications control unit and external sensors acquire external environment information including information on the vicinity of a vehicle. An autonomous driving control ECU calculates a warning level relating to continuing autonomous driving on the basis of the vicinity information. A speech generation section generates speech information on the basis of the external environment information acquired by the communications control unit and the external sensors. A control section controls speaking equipment so as to change at least one of speech information to be announced by the speaking equipment, a frequency of announcement of the speech information, and vocalization, in accordance with the warning level calculated by the autonomous driving control ECU. When autonomous driving is continuing, the control section controls the speaking equipment so as to repeat announcements of the speech information.

Abstract: A protocol conversion device includes a converter and a communicator. The converter makes a protocol conversion of vehicle data acquired from a vehicle by communication based on a first protocol, into vehicle data in a format of HTTP or HTTPS as a second protocol. The vehicle data is directed to diagnosis of the vehicle. The communicator transmits the vehicle data protocol-converted by the converter, to a communication terminal that is able to execute, by communication based on the second protocol, a vehicle diagnosis program held by a web server. The converter makes a protocol conversion of data transmitted from the communication terminal by the communication based on the second protocol, into data in a first protocol format. The communicator transmits, to the vehicle by the communication based on the first protocol, the data in the first protocol format that is protocol-converted by the converter.

Abstract: In a method of manufacturing a front pillar, a resin layer is formed by discharging a transparent resin from first nozzles of a 3D printer and discharging a supporting material from second nozzles of the 3D printer, while moving the first nozzles and the second nozzles in a direction corresponding to a length direction of a front pillar. Afterwards, the first nozzles and the second nozzles are moved relatively in a direction corresponding to a transverse direction of the front pillar and in a direction of moving away from the resin layer. By repeating the forming of the resin layer and the relative moving of the first nozzles and the second nozzles, the resin layers are layered in the direction corresponding to the transverse direction of the front pillar such that the front pillar is manufactured.

Abstract: An accompanying vehicle selection system includes: a first vehicle that is provided with a driver's seat; a plurality of second vehicles that have different functions from the first vehicle, and that are configured to travel in accompaniment with the first vehicle; and a control unit that is provided in the first vehicle, and that determines, based on input information, which vehicle from among the plurality of second vehicles is to travel in accompaniment with the first vehicle.

Abstract: There is provided an image processing device including: a first memory; a first processor that is connected to the first memory; and a storage section that stores image data related to a position information-appended image that is appended with position information relating to an imaging location. The first processor searches for one or more items of the image data including the position information within a predetermined range of a current position of a vehicle, and selects a position information-appended image related to image data found by the searching as an image to be displayed in the vehicle.

Abstract: A display device for a vehicle includes a projection device that is provided on a vehicle cabin interior side of a front windshield glass in a vehicle, and displays information by projecting projection light so that this information appears superimposed on scenery visible in front of the vehicle, a display device that is provided in an instrument panel of the vehicle, and displays information towards a vehicle occupant seat side, and a display control unit that, of planned actions acquired from a self-driving control unit that controls self-driving of the vehicle, causes a planned action that is to be performed next after a vehicle action currently being performed to be displayed as a primary planned action by the projection device, and also causes planned actions that are to be performed subsequently to the primary planned action to be displayed as secondary planned actions.

Abstract: A driving assistance device for a vehicle, comprising: a detection unit that detects a vicinity condition of the vehicle and a running condition of the vehicle; a driving control unit that, on the basis of detection results from the detection unit, controls at least a portion of driving operations of the vehicle and controls autonomous driving that is capable of an overtaking maneuver to overtake a vehicle in front; an operation unit that implements an operation to change a specified speed during the autonomous driving; and a control unit that, after the operation to change the specified speed is implemented by the operation unit in a state during autonomous driving in which a vehicle in front is detected by the detection unit, controls the driving control unit so as to carry out the overtaking maneuver.

Abstract: A surroundings monitoring device that includes: a display device that displays an own-vehicle display displaying a vehicle equipped with the surroundings monitoring device; a detection device that detects a potential hazard present near the vehicle; a processor; and a memory that is connected to the processor, the processor being configured to display on the display device a potential hazard display spanning from the own-vehicle display, or from a vicinity of the own-vehicle display on the display device, to a location of the display device corresponding to a direction in which the potential hazard detected by the detection device is present, the potential hazard display being distinct from display at other locations.

Abstract: There is provided an interior structure including: a display section that is provided at an instrument panel; a styling section that is provided at a steering wheel and that has a similar profile to the display section; and an operation section that is disposed at the styling section and that is associated with the display section.

Abstract: A vehicular display device includes a surrounding information obtaining unit configured to obtain surrounding information indicating a surrounding situation of a host vehicle, and a display ECU configured to inform a driver of the presence of a warning object that needs to be recognized by the driver through displaying of an in-vehicle display unit when the warning object is detected based on the surrounding information. The in-vehicle display unit has a display screen in a region surrounded by a grip of a steering wheel in a planar positional relationship when the driver views the steering wheel. The display ECU is configured to display a host vehicle mark in a central position of the steering wheel in a right-left width direction and display a warning object mark indicating the warning object in a position corresponding to a direction of the warning object relative to the host vehicle on the display screen.

Abstract: An apparatus includes a mode switching unit configured to switch a driving mode of a vehicle from a first driving mode to a second driving mode different from the first driving mode, or from the second driving mode to the first driving mode; and a changing unit configured to (i) change a position of a first seat of the vehicle, in a case in which the first driving mode is switched to the second driving mode by the mode switching unit, and (ii) change the position of the first seat to a position which is occupied by a second seat different from the first seat during the second driving mode, in a case in which the second driving mode is switched to the first driving mode by the mode switching unit.

Abstract: A method of forming an oxide semiconductor includes a step of depositing an oxide semiconductor layer over a substrate by using a sputtering apparatus in which in a target containing indium, an element M (aluminum, gallium, yttrium, or tin), zinc, and oxygen, the substrate which faces a surface of the target, and a magnet unit comprising a first magnet and a second magnet on a rear surface side of the target are provided. In the method, deposition is performed under a condition that a maximum intensity of a horizontal magnetic field is greater than or equal to 350 G and less than or equal to 2000 G in a plane where a vertical distance toward the substrate from a surface of the magnet unit is 10 mm.

Abstract: A vehicle-mounted device that includes: a memory; and a processor, wherein the processor is configured to: detect an own vehicle position; transmit position information that indicates the detected own vehicle position to a location outside the own vehicle, together with car model information that indicates a car model of the own vehicle; receive position information of another vehicle of a predetermined specific car model or map information that indicates a position of the other vehicle, from the location outside the own vehicle; and display the position of the other vehicle on a monitor as a map, based on a reception result.

Abstract: An image distribution device includes: a receiving section that receives a captured image captured by a first vehicle and position information relating to a position where the captured image has been captured; an identification section that identifies one or more second vehicles that are different from the first vehicle and that are heading toward the position indicated by the position information received by the receiving section; and a transmission section that transmits the captured image received by the receiving section to the one or more second vehicles identified by the identification section.